commit | f41dbb0fa22bb33db60532328a78fcbb22af604e | [log] [tgz] |
---|---|---|
author | Hoa Nguyen <hoanguyen@ucdavis.edu> | Sun Mar 07 04:20:14 2021 -0800 |
committer | Hoa Nguyen <hoanguyen@ucdavis.edu> | Thu Mar 11 08:24:46 2021 +0000 |
tree | 60a28922b992285c0ec72804f61d760338ae6a3a | |
parent | c5f5c70d0291e105444f534cf538ea40e4ddcb96 [diff] |
resources: remove the swap partition in Ubuntu installation The current preseed will create a swap partition, which causes the boot process to waste time on looking for the swap partition. Signed-off-by: Hoa Nguyen <hoanguyen@ucdavis.edu> Change-Id: Ifa257742b5253f088783dfb5c39829204e7b3d77 Reviewed-on: https://gem5-review.googlesource.com/c/public/gem5-resources/+/42403 Reviewed-by: Jason Lowe-Power <power.jg@gmail.com> Maintainer: Jason Lowe-Power <power.jg@gmail.com> Tested-by: Jason Lowe-Power <power.jg@gmail.com>
This repository contains the sources needed to compile the gem5 resources. The compiled resources are found in the gem5 resources bucket, http://dist.gem5.org/dist. Though these resources are not needed to compile or run gem5, they may be required to execute some gem5 tests or may be useful when carrying out specific simulations.
The following sections outline our versioning policy, how to make changes to this repository, and describe each resource and how they may be built.
We ensure that for each version of the gem5 source there is a corresponding version of the gem5-resources, with the assumption that version X of the gem5 source will be used with version X of the gem5-resources. The gem5-resources repository contains two branches, develop and stable. The stable branch's HEAD points towards the latest gem5 resources release, which will be the same version id as the that of the latest gem5 source. E.g., if the latest release of gem5 is v20.2.0.0, then the latest release of gem5-resources will be v20.2.0.0, with the HEAD of its stable branch tagged as v20.2.0.0. Previous versions will be tagged within the stable branch. Past versions gem5-resources can thereby be checked out with git checkout <VERSION>
. A complete list of versions can be found with git tag
. The develop branch contains code under development and will be merged into the stable branch, then tagged, as part of the next release of gem5. More information on gem5 release procedures can be found here. Any release procedures related to the gem5 source can be assumed to be applicable to gem5-resources.
The compiled resources for gem5 can be found under http://dist.gem5.org/dist/{VERSION}. E.g. compiled resources for gem5 v20.2 are under http://dist.gem5.org/dist/v20-1 and are compiled from gem5-resources v20.2. http://dist.gem5.org/dist/develop is kept in sync with the develop branch, and therefore should not be depended upon for stable, regular usage.
Note: Resource files for gem5 v19.0.0.0, our legacy release, can be found under http://dist.gem5.org/dist/current.
Changes to this repository are made to the develop branch via our Gerrit code review system. Therefore, to make changes, first clone the repository checkout the develop branch:
git clone https://gem5.googlesource.com/public/gem5-resources git checkout --track origin/develop
Then make changes and commit. When ready, push to Gerrit with:
git push origin HEAD:refs/for/develop
The change will then be reviewed via our Gerrit code review system. Once fully accepted and merged into the gem5-resources repository, please contact Bobby R. Bruce bbruce@ucdavis.edu to have the compiled sources uploaded to the gem5 resources bucket.
The RISCV Tests soruce can be found in the src/riscv-tests
directory. More information about these tests can be found in src/riscv-tests/README.md
.
The RISCV Tests in this repository were obtained from https://github.com/riscv/riscv-tests.git, revision 19bfdab48c2a6da4a2c67d5779757da7b073811d.
To compile the RISCV Tests the RISCV GNU Compiler must be installed.
Then, to compile:
cd src/riscv-tests autoconf ./configure --prefix=/opt/riscv/target make -C src/riscv-tests
This RISCV binaries can then be found within the src/riscv-tests/benchmarks
directory.
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/dhrystone.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/median.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/mm.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/mt-matmul.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/mt-vvadd.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/multiply.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/pmp.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/qsort.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/rsort.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/spmv.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/towers.riscv
http://dist.gem5.org/dist/v20-1/test-progs/riscv-tests/vvadd.riscv
The simple resources are small binaries, often used to run quick tests and checks in gem5. Their bare-meltal
Simple single source file per executable userland or baremetal examples.
The toplevel executables under src/simple
can be built for any ISA that we have a cross compiler for. The current cross compilers supported are :
x86_64
(as installed via APT with sudo apt install build-essential
)aarch64-linux-gnu-gcc/arch64-linux-gnu-g++
arm-linux-gnueabihf-gcc/arm-linux-gnueabihf-g++
riscv64-linux-gnu-gcc/riscv64-linux-gnu-g++
Examples that build only for some ISAs specific ones are present under src/simple/<ISA>
subdirs, e.g. src/simple/aarch64/
,
The ISA names are meant to match uname -m
, e.g.:
aarch64
arm
riscv
x86_64
sparc64
You have to specify the path to the gem5 source code with GEM5_ROOT
variable so that m5ops can be used from there. For example for a native build:
cd src/simple make -j`nproc` GEM5_ROOT=../../../
The default of that variable is such that if you place this repository and the gem5 repository in the same directory:
./gem5/ ./gem5-resources/
you can omit that variable and build just with:
make
After the building, the generated files are located under:
./out/<ISA>/
For example, some of the userland executables built on x86 are:
./out/x86_64/user/hello.out ./out/x86_64/user/x86_64/mwait.out
Or if you build for a different ISA:
make ISA=aarch64
some of the executables would be:
./out/aarch64/user/hello.out ./out/aarch64/user/aarch64/futex_ldxr_stxr.out
By default, only userland executables are built. You can build just the baremetal ones instead with:
make ISA=aarch64 bare
or both userland and baremetal with:
make ISA=aarch64 all
A sample baremetal executable generated by this is:
out/aarch64/bare/m5_exit.out
Only ISAs that have a corresponding src/simple/bootloader/
file can build for baremetal, e.g. src/simple/bootloader/aarch64.S
.
Note that a some C source files can produce both a baremetal and an userland. For example m5_exit.c
produces both:
out/aarch64/bare/m5_exit.out out/aarch64/user/m5_exit.out
However, since the regular userland toolchain is used rather than a more specialized baremetal toolchain, the C standard library is not available. Therefore, only very few C examples can build for baremetal, notably the ones that use m5ops.
There are also examples that can only build for baremetal, e.g. aarch64/semihost_exit
only builds for baremetal, as semihosting is not available on userland.
The simple
directory is also able to generate squashfs images containing only a single userland executable at /sbin/init
for any of the userland executables. This can be done with a command of type:
make ISA=aarch64 out/aarch64/squashfs/m5_exit.squashfs
Squashfs is a filesystem type that the Linux kernel understands natively, exactly like ext4, except that it is a bit more convenient to create, and write-only.
You can therefore give those squashfs images to gem5 exactly as you would give a normal ext4 raw image, by pointing to it for example with fs.py --disk-image=m5_exit.squashfs
as shown at: https://www.gem5.org/documentation/general_docs/fullsystem/building_arm_kernel Linux will then run the given userland executable after Linux boots as the init program.
The initial motivation for this was to generate simple test images for Linux boot.
Since this is a less common use case, squashfs images are not currently generated by any single phony target all at once.
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_pthread_create_seq
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_pthread_create_para
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_pthread_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_atomic
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_pthread_cond
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_std_thread
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_std_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/x86/test_std_condition_variable
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_pthread_create_seq
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_pthread_create_para
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_pthread_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_atomic
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_pthread_cond
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_std_thread
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_std_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch32/test_std_condition_variable
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_pthread_create_seq
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_pthread_create_para
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_pthread_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_atomic
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_pthread_cond
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_std_thread
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_std_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/aarch64/test_std_condition_variable
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_pthread_create_seq
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_pthread_create_para
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_pthread_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_atomic
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_pthread_cond
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_std_thread
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_std_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/riscv64/test_std_condition_variable
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_pthread_create_seq
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_pthread_create_para
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_pthread_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_atomic
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_pthread_cond
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_std_thread
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_std_mutex
http://dist.gem5.org/dist/v20-1/test-progs/pthreads/sparc64/test_std_condition_variable
To compile:
cd src/square docker run --rm -v ${PWD}:${PWD} -w ${PWD} -u $UID:$GID gcr.io/gem5-test/gcn-gpu make gfx8-apu
The compiled binary can be found in src/square/bin
http://dist.gem5.org/dist/v20-1/test-progs/square/square.o
The Standard Performance Evaluation Corporation (SPEC) CPU 2006 benchmarks are designed to provide performance measurements that can be used to compare compute-intensive workloads on different computer systems. SPEC CPU 2006 contains 12 different benchmark tests.
src/spec-2006
provides resources on creating a SPEC 2006 disk image, and necessary scripts to run the SPEC 2006 benchmarks within X86 gem5 simulations. Please consult the src/spec-2006/README.md
for more information.
Please note, due to licensing issues, the SPEC 2006 iso cannot be provided as part of this repository.
The Standard Performance Evaluation Corporation (SPEC) CPU 2017 benchmarks are designed to provide performance measurements that can be used to compare compute-intensive workloads on different computer systems. SPEC CPU 2017 contains 43 benchmarks organized into four suites: SPECspeed 2017 Integer, SPECspeed 2017 Floating Point, SPECrate 2017 Integer, and SPECrate 2017 Floating Point.
src/spec-2017
provides resources on creating a SPEC 2017 disk image, and necessary scripts to run the SPEC 2017 benchmarks within X86 gem5 simulations. Please consult the src/spec-2017/README.md
for more information.
Please note, due to licensing issues, the SPEC 2017 iso cannot be provided as part of this repository.
GAPBS is a graph processing benchmark suite and it contains 6 kernels: Breadth-First Search, PageRank, Connected Components, Betweenness Centrality, Single-Source Shortest Paths, and Triangle Counting.
We obtained the GAPBS benchmark suite from http://gap.cs.berkeley.edu/benchmark.html
src/gapbs
contains resources to build a GAPBS disk image which may be used to run the benchmark on gem5 X86 simulations. src/gapbs/README.md
contains build and usage instructions.
http://dist.gem5.org/dist/v20-1/images/x86/ubuntu-18-04/gapbs.img.gz.
The Princeton Application Repository for Shared-Memory Computers (PARSEC) is a benchmark suite composed of multithreaded programs.
We used PARSEC 3.0, available from https://parsec.cs.princeton.edu.
In src/parsec
we provide the source to build a disk image which may be used, alongside configuration files, to run the PARSEC Benchmark Suite on gem5 architectural simulations. Please consult src/parsec/README.md
for build and execution information.
http://dist.gem5.org/dist/v20-1/images/x86/ubuntu-18-04/parsec.img.gz.
The NAS Parallel Benchmarks (NPB) are a small set of programs designed to help evaluate the performance of parallel supercomputers. The set consists of five Lunux Kernels and three pseudo-applications. gem5 resources provides a disk image, and scripts allowing for the NPB image to be run within gem5 X86 simulations.
We use NPB 3.4.1, available from https://www.nas.nasa.gov/publications/npb.html.
The npb resources can be found in src/npb
. It consists of:
The instructions to build the npb disk image, a Linux kernel binary, and how to use gem5 run scripts to run npb are available in the README file.
http://dist.gem5.org/dist/v20-1/images/x86/ubuntu-18-04/npb.img.gz
The Linux boot tests refer to the tests performed with different gem5 configurations to check its ability to boot a Linux kernel. More information on Linux boot tests can be found here.
The boot-tests resources consist of three main components:
The instructions to build the boot-tests disk image (boot-exit
), the Linux binaries, and how to use gem5 run scripts to run boot-tests are available in this README file.
The Insttests test SPARC instructions.
Creating the SPARC Insttest binary requires a SPARC cross compile. Instructions on creating a cross compiler can be found here.
To compile:
cd src/insttest make
We provide a docker image with a pre-loaded SPARC cross compiler. To use:
cd src/insttest docker run --volume $(pwd):$(pwd) -w $(pwd) --rm gcr.io/gem5-test/sparc64-gnu-cross:latest make
The compiled binary can be found in src/insttest/bin
.
http://dist.gem5.org/dist/v20-1/test-progs/insttest/bin/sparc/linux/insttest
Contains scripts to create a Linux kernel binary.
Instructions on how to use the scripts can be found here src/linux-kernel/README.md
.
http://dist.gem5.org/dist/v20-1/kernels/x86/static/vmlinux-4.4.186 http://dist.gem5.org/dist/v20-1/kernels/x86/static/vmlinux-4.9.186 http://dist.gem5.org/dist/v20-1/kernels/x86/static/vmlinux-4.14.134 http://dist.gem5.org/dist/v20-1/kernels/x86/static/vmlinux-4.19.83
There is no universal license encompassing all this repository's contents. The licences covering the individual gem5 resources are therefore highlighted below.
src/asmtest/LICENSE
.src/riscv-tests/LICENSE
.src/spec-2006
.src/spec-2017
.src/gapbs
.src/parsec/disk-image/parsec/parsec-benchmark/LICENSE
). For the remaining files, please consult copyright notices in individual source files.src/npb
. The NAS Parallel Benchmarks utilize a permissive BSD-style license.src/boot-exit
.src/insttest
.src/linux-kernel
.src/hack-back
.src/simple
.